Marco Pisanello

This paper introduces a depth-resolved fiber photometry method to monitor amyloid plaque signals in freely behaving Alzheimer's disease mice, showing depth-specific fluorescent signal increases in diseased mice.

The paper develops a method to detect brain cancer metastasis in mice using wide-volume Raman spectroscopy through a single tapered fiber with high accuracy.

The paper presents a computational technique to efficiently calculate light propagation in tapered optical fibers for neural interfaces.

The paper investigates how anatomical features of different brain regions affect the spatial localization of fiber photometry signals in mice.

This paper introduces an integrated fibertrode that enables simultaneous optogenetic control and electrical recording of neural activity in small brain volumes with reduced photoelectric artifacts.

This paper introduces tapered optical fibers for efficient and selective light collection from deep brain tissues, enabling multisite photometry and customizable collection volumes.

This paper explores how tapered optical fibers can be engineered to deliver light to specific brain regions through modal demultiplexing properties.

This paper introduces tapered optical fibers for dynamic light delivery in brain regions, showing they can illuminate large volumes or specific subregions with adjustable precision.